In-situ and ex-situ microstructure studies and dislocation-based modelling for primary creep regeneration response of 316H stainless steel-Reference-Cited by-同舟云学术

In-situ and ex-situ microstructure studies and dislocation-based modelling for primary creep regeneration response of 316H stainless steel

Published:2021-09 Issue: Volume:216 Page:117130
ISSN:1359-6454
Container-title:Acta Materialia
language:en
Short-container-title:Acta Materialia

Author:

Li X.,Holdsworth S.R.,Kalácska S.^ORCID,Balogh L.^ORCID,Park J.-S.,Dasilva Y. Arroyo Rojas,Maeder X.,Cocks A.^ORCID,Mazza E.,Hosseini E.

Funder

Argonne National Laboratory

H2020 Marie Skłodowska-Curie Actions

U.S. Department of Energy

Science and Technology Facilities Council

Schweizerischer Nationalfonds zur Förderung der Wissenschaftlichen Forschung

Horizon 2020

Office of Science

Publisher

Elsevier BV

Subject

Metals and Alloys,Polymers and Plastics,Ceramics and Composites,Electronic, Optical and Magnetic Materials

Reference48 articles.

1. Creep behaviour of AISI 316H stainless steel under stress-varying creep loading conditions: primary creep regeneration;Li;Mater. High Temp.,2019

2. Creep behaviour of a high chromium martensitic steel under stress varying creep loading conditions: primary creep regeneration (PCR);Li;Int. J. Press. Vessels Pip.,2020

3. Comparison of primary creep regeneration and anealstic recovery behaviour of 316H austenitic and 10%Cr martensitic steel;Li;Mech. Mater.,2020

4. A novel insight into the primary creep regeneration behaviour of a polycrystalline material at high-temperature using in-situ neutron diffraction;Al Mamun;Materials Sci. Engineering: A,2020

5. Self-consistent modelling of cyclic loading and relaxation in austenitic 316H stainless steel;Petkov;Philos. Mag.,2019

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